|Publication number||US6882712 B1|
|Application number||US 10/155,531|
|Publication date||Apr 19, 2005|
|Filing date||May 24, 2002|
|Priority date||Jan 22, 1999|
|Publication number||10155531, 155531, US 6882712 B1, US 6882712B1, US-B1-6882712, US6882712 B1, US6882712B1|
|Inventors||Jerry Iggulden, Kyle Fields|
|Original Assignee||Pointset Corporation|
|Export Citation||BiBTeX, EndNote, RefMan|
|Patent Citations (64), Non-Patent Citations (5), Referenced by (119), Classifications (12), Legal Events (8)|
|External Links: USPTO, USPTO Assignment, Espacenet|
This is a continuation-in-part of application Ser. No. 09/415,299, filed Oct. 8, 1999 now U.S. Pat. No. 6,483,906, which is a continuation-in-part of application Ser. No. 09/351,270, filed Jul. 12, 1999, now U.S. Pat. No. 6,256,378, which is a continuation-in-part of application Ser. No. 09/235,709, filed Jan. 22, 1999 now U.S. Pat. No. 6,415,023.
1. Field of the Invention
This invention relates generally to the field of setting programmable features of an appliance. More particularly, the invention provides a method and apparatus for conveniently setting various programmable features of an appliance using a graphical user interface accessed with a computer via a global computer network.
2. Prior Art
The advent of microprocessors and other miniaturized electronics has facilitated the implementation of increasingly complex functions in home and office appliances. Typically, a relatively complex operator interface is required in order to invoke the various functions that are available. For example, home electronic devices such as televisions, VCRs, stereo receivers and the like are typically provided with sophisticated remote control devices. Such remote control devices have a large number of individual buttons that are used to directly control features of an appliance and/or that are used to navigate through on-screen menus. Because of the sophistication and complexity of the controls, owner's manuals for appliances are becoming increasingly voluminous and difficult to comprehend.
Due to the growing complexity of modern appliances, many of the available features are never utilized by consumers, even as competition in the marketplace drives the proliferation of such features. A number of solutions have been proposed for making appliances easier to control and generally more “user friendly”. For example, U.S. Pat. No. 5,553,123 issued to Chan, et al. discloses a method for downloading set-up data via a telephone to an appliance controller. A user first initiates a telephone call to a remote site having a computer. The user communicates certain background information to the remote site, and set-up data is then downloaded via the telephone connection. The earpiece of the telephone is held in proximity to a microphone built into the appliance controller in order to receive the downloaded data. Upon receipt of the data, the controller is configured to operate the appliance.
U.S. Pat. No. 5,600,711 issued to Yuen discloses an apparatus and methods for providing initializing settings to an appliance. When a user wishes to initialize the settings of an appliance, the user initiates a telephone connection with a remote site. The remote site than downloads a sequence of commands for initializing the settings in the appliance over the telephone connection. A remote control device for the appliance receives the sequence of commands and stores them in an internal memory. The remote control device is then aimed at the appliance and the user enters a command to transfer the stored sequence of commands to the appliance, thereby initializing the settings.
U.S. Pat. No. 5,141,756 issued to Levine discloses a method of initializing a programmable control device, such as a remote controller for a video cassette recorder. The device is programmed by connecting it to a telephone system, dialing a remote initializing center preferably employing a computer, and providing the computer with information as to the environment of the control device by using touch tone keys to respond to audio inquiries transmitted by the computer. The computer then transmits the initializing program for loading into the memory of the control device.
U.S. Pat. No. 5,774,063 issued to Barry, et al. discloses a method and apparatus for remote control of electronic devices from a computer. A transducer, such as an infrared transmitter, is coupled to a computer and aimed at an electronic device to be controlled. An application program running on the computer generates appropriate signals for control of the electronic device.
U.S. Pat. No. 5,815,086 issued to Ivie, et al. discloses a method and apparatus for communicating commands to electrical appliances from remote locations. Various appliances within a structure, such as a house, are coupled to a signal-conducting bus, such as the AC power wiring bus of the structure. Appliance commands are issued over the bus from a central transmitter. Appliances may be directly coupled to the bus or may receive commands via an infrared signal from an infrared transmitting device coupled to the bus. A handheld control device may be supplied for controlling the various appliances, in which case, receivers for the handheld control device are coupled to the bus in various parts of the structure.
U.S. Pat. No. 5,819,294 issued to Chambers discloses a programmable universal remote controller. A programming device is coupled to a computer and receives signals from conventional remote controllers. The programming device correlates the received signals with a database of stored signals used by various appliance manufacturers. The programming device then sends a complete set of appropriate control signals to the programmable universal controller.
U.S. Pat. No. 5,228,077 issued to Darbee discloses a universal remote controller that may be programmed from a remote location. The remote controller receives programming data via a video or telephonic data transmission system.
U.S. Pat. No. 5,488,571 issued to Jacobs, et al. discloses a system for transferring data from a video display monitor of a personal computer to a portable information device such as an appointment scheduling device. The video display is modulated to transmit data to an opto-electronic receiver in the portable information device.
Microsoft Corporation has introduced a cordless phone having programmable functions controlled by a personal computer. The base station of the phone is coupled to the serial port of a computer and application software is installed on the computer to control operation of the phone.
The present invention provides methods and apparatus for setting preferences and other parameters of an appliance. In preferred embodiments of the invention, a user initiates a connection to an interactive site on a global computer network. The site hosts a graphical user interface with which preferences and other parameters of an appliance may be set by the user. In some embodiments, set-up data for the appliance may be downloaded directly to the appliance from the user's computer or the interactive site. In other embodiments, set-up data for the appliance is downloaded from the user's computer or the interactive site to a transfer device where it is temporarily stored. The transfer device is then used to program the appliance. Since the appliance itself does not require a user interface for set-up procedures and programming, the appliance can be smaller, cheaper and lighter without sacrificing any functionality. In addition, the need for a printed user's manual is largely obviated since all of the information normally contained in such a manual can be obtained from the interactive site.
In the following description, for purposes of explanation and not limitation, specific details are set forth in order to provide a thorough understanding of the present invention. However, it will be apparent to one skilled in the art that the present invention may be practiced in other embodiments that depart from these specific details. In other instances, detailed descriptions of well-known methods and devices are omitted so as to not obscure the description of the present invention with unnecessary detail.
The present invention finds application with a wide variety of home and office appliances. Some categories of appliances in which the invention may be utilized include clocks, telephones, televisions, television set-top decoders, video recorders, audio and video entertainment system components, refrigerators, conventional ovens, microwave ovens, dishwashers, irrigation systems, global positioning satellite (GPS) receivers, automobile heating, ventilating and air conditioning (HVAC) systems, automobile sound systems, home security systems, home HVAC systems, home master control systems, facsimile machines, copiers, cameras, postage meters, etc. “Programmable features” refer to any appliance features that may be altered. These include, for example, initialization or set-up parameters, stored data (e.g., telephone speed dial numbers or GPS receiver database) and the operating system or other internal software. Specific examples are given below to illustrate operation of the invention. However, it will be understood that the invention has general applicability to appliances of all types and to all types of programmable features within such appliances.
“Appliances” will be understood to include any device or system that has programmable features, including those that not normally thought of as “appliances.” For example, an automobile has numerous on-board systems that are programmable in one way or another. Thus, the automobile itself may be viewed as an “appliance,” as may the individual systems. In a similar vein, a residential dwelling contains a number of individual appliances. The dwelling, together with the individual appliances, may be viewed collectively as a single “appliance.” This is particularly true if the individual appliances are connected to a home network. In this case, a single user interface may be provided to program the various systems and appliances of the dwelling. These may be communicated directly to a central controller on the home network or through a transfer device. A transfer device may be advantageously combined with a key to open the dwelling so that appliance features are programmed upon entering the dwelling. This is especially useful when there are multiple occupants in the dwelling. Each key may then carry the individual preferences of the respective occupant. Conflicts in preferences may be resolved through a priority hierarchy established when the preferences are programmed with the user interface. Of course, the invention is not limited to residential dwellings and may be employed as well with offices, stores and other habitable spaces.
The invention also has applicability apart from setting programmable features of appliances. For example, the invention may be employed to purchase pay-per-view programming at an interactive web site. An authorization code may then be downloaded into the transfer device of the invention and transferred to a TV set-top box so that the purchased program will be “descrambled”. This approach eliminates the telephone connection required for most TV set-top boxes with pay-per-view capability.
Another potential application for the invention is as a programmable “token”. For example, a consumer product manufacturer may offer discounts on certain of its products at its web site. Authorization to receive the discount may be downloaded into the transfer device of the invention and the transfer device may then be taken to a retailer. The transfer device is then used to transmit the discount authorization to a receiving terminal at the retailer. Ideally, the terminal would also have the ability to modify the stored contents of the transfer device so that the discount authorization could be cancelled once the discount is given. This same “token” approach can also be applied to pre-paid purchase transactions; reservations at restaurants, hotels, parks, etc.; entry authorization to entertainment venues or other secured areas and similar situations in which a conveniently transported authorizing token serves as an extended communication link from a computer system.
A first embodiment of the invention is illustrated in FIG. 1. An appliance 10 receives set-up data from a local computer 12. In a typical application, local computer 12 is a general purpose personal computer of the type now widely found in homes and offices. Details of computer 12 are not particularly relevant to the invention and are not shown. Typically, computer 12 will comprise, at a minimum, a processing unit, a keyboard and a display. Additional input devices, such as a mouse or other pointing device, and output devices, such as a printer, may also be included as part of computer 12.
Local computer 12 is coupled to a remote interactive site server 14 by a telecommunications link. In a typical embodiment of the invention, interactive site server 14 would be accessible via the World Wide Web. Other appropriate means for connecting computer 12 to server 14 could also be employed. Server 14 contains programming for interactively setting the programmable features of appliance 10. Preferably, server 14 presents to the owner of appliance 10, via computer 12, a graphical user interface that is tailored to appliance 10 and the programmable features thereof. Such interface can be thought of as a “virtual appliance”. This can be better understood from the discussion of
In the embodiment illustrated in
A two-way connection also allows “synchronization” of the real appliance with the virtual appliance. Even though most of the feature configuration of an appliance will be done using the virtual appliance interface, there may still be features and settings that can be controlled directly at the real appliance. By periodically reestablishing a two-way connection with the computer, the virtual appliance can be updated with any changes in the settings of the real appliance.
Another advantage of two-way communications is that it may be used to facilitate remote troubleshooting of appliances. Data from the appliance may be transmitted to computer 12, and from there to the appliance manufacturer or support facility via an Internet or email connection. Analysis of the data can then be used to issue appropriate repair orders. In some cases, repairs may be effectuated by downloading connective software or firmware in the same manner that appliance set-up is accomplished.
Some types of appliances can be readily adapted to utilize existing components for establishing communications with computer 12. For example, electronic cameras inherently possess optical sensors than can be used to sense modulation of a computer display screen or other light source. The primary imaging path of the camera may be used in the case of video cameras and digital still cameras. This simply requires the addition of circuitry and/or software to decode the modulation and store the appropriate set-up parameters. Alternatively, the receiver of the camera's focusing range finder may be used as the optical sensor.
In order to provide the appropriate interface for programming the features of appliance 10, server 14 preferably receives data from the appliance manufacturer. Such data may be received periodically as new model appliances are released by the manufacturer or may be obtained by server 14 in real time with a dial-up connection to the manufacturer. The latter approach offers the advantage of insuring that the most recent product information is available to server 14. One method of insuring that the appropriate information for appliance 10 is obtained by server 14 is to prompt the appliance owner to input the serial number of the appliance at computer 12. This need only be performed once, since the serial number can thereafter be stored in computer 12 and/or server 14 for use in subsequent programming of the same appliance. Warranty registration for the appliance may be conveniently performed during this same procedure.
An optional aspect of the invention is the ability of server 14 to provide valuable feedback to the appliance manufacturer. During appliance set-up operations, server 14 collects information concerning consumer's use of product features that can be useful in product marketing and new product design. The link between server 14 and the appliance manufacturer also facilitates new marketing opportunities. The manufacturer can readily target advertising to identified purchasers of its product. Also, the manufacturer can offer accessories and related products for appliance 10. Such offers may be integrated with the set-up interface or may be directed to the appliance owner separately by email or conventional mail. It should be appreciated that the invention can facilitate warranty registration. Since the appliance owner is already communicating with server 14 to set programmable features of the appliance, it is a simple matter to collect the additional information necessary to complete warranty registration and, if desired, to provide additional demographic data to the manufacturer.
Transfer device 16 may be configured to transfer data from the appliance back to the computer as well. This facilitates synchronization of the virtual and real appliances as explained above. Data from the appliance may be loaded into the transfer device by means of an opto-electronic link in the same manner by which data is loaded from the computer. Preferably, however, the transfer device will have a direct electrical coupling to the appliance for applications involving two-way communications. Transfer of data into the computer may be accomplished in a number of ways. For example, transfer device 16 may couple directly to a serial or parallel input port of the computer as discussed previously, in which case a single physical port on the transfer device may serve as both input port and output port. Alternatively, transfer device 16 may include a sound transducer by which data may be transferred through a microphone coupled to the computer.
Transfer device 16 may be configured in various forms. Preferably, device 16 is easily portable. Device 16 may be in the form of a pen or wand with optical detector 104 and infrared transmitter 114 at one end. Transfer device 16 may also be integrated with a conventional remote controller for those types of appliances that are commonly controlled remotely. In another variation, transfer device 16 may be a removable module that is docked into appliance 10 as described above. In such case, communication between the transfer device and the appliance may be accomplished with a direct electrical connection through a suitable arrangement of electrical contacts. Transfer device 16 may, in fact, comprise the “brains” of appliance 10 in the form of a microprocessor or equivalent device. Aside from the ease of programming features and functions of the appliance, such an arrangement offers the added benefit of facilitating service or replacement of the appliance's electronic components in the event of malfunction.
The embodiment shown in
Along the top of the display shown in
When all settings have been completed, the data is loaded into transfer device 16, which is then taken to the physical location of the thermostat for transfer of the data. Since all of the settings have been entered into the computer 12, they may be conveniently saved locally and/or by server 14 for subsequent use in revising these settings or for reloading the settings in the event of a power failure. A printed record of the settings may also be made from computer 12. For some appliances, a print-out following a set-up procedure may be used as a template for the appliance to indicate selected options and programmed features. For example, certain appliances may have unlabeled function buttons for which a template may be made once selected functions have been assigned to the buttons during a set-up procedure.
It will be appreciated that a thermostat physically incorporating the interface shown in
Another example of an “appliance” to which the present invention can be advantageously applied is the modern automobile. The driver interface for automobiles has become more and more complicated as more and more electronic and computer driven features have become available. Seat position and temperature, mirror position, audio entertainment settings, HVAC settings and navigational settings can all be set electronically. Many of the available settings are changed only infrequently, and thus may require reference to the owner's manual in order to change the settings manually. Naturally, different drivers have different preferences and this can result in a lengthy process of changing settings each time a different driver enters the vehicle. The present invention provides a convenient way to communicate driver preferences to the various electronic systems of an automobile. As explained above, a driver can set many of the desired preferences using an interactive program with a graphical user interface. A transfer device is then used to communicate the preferences to the automobile. In this particular example, the transfer device may also function as a key to enable operation of the automobile. Certain preferences, such as seat position and mirror position that are established in the automobile itself can be stored in the transfer device along with the preference data downloaded from the driver's home computer.
Use of the present invention facilitates customized driver controls. For example, touch screen display panels are now used in many automobiles. Using a graphical user interface, a driver can design a customized set of controls for operating features of interest to that driver. One driver may wish to have certain radio selections readily available, whereas another driver may wish to have available a selection of destinations for the navigation system. These preferences are communicated via the transfer device as described above. Controls that are customized in this manner are not limited to touch screen selections. By the same process, driver defined functions may be assigned to buttons, dials and other mechanical controls as well to create individualized “function keys.” Furthermore, it will be appreciated that creating customized controls in this manner is not limited to the context of automobiles, but may be applied to any type of appliance.
A particular example of the embodiment illustrated in
Another embodiment of the invention as illustrated in
As discussed above, the transfer device or appliance of the present invention preferably receives data by means of an opto-electronic data link. Any suitable source of light modulation may be employed to transmit data to the transfer device or appliance. These include LEDs, incandescent bulbs, LCDs and CRTs. A convenient source of light modulation is the display screen of a local computer. At least a portion of the display of the local computer may be modulated to transmit data to the transfer device.
Most current approaches to video modulation data transfer use sequential pulsing of the video image to provide a series of binary 1's and 0's. These binary bits are used with framing bits (start and stop bits) to form complete data bytes. Some of the current approaches rely on the scanning CRT image to serialize the data bits by providing a luminance pulse for each data bit. This approach will fail when applied to flat panel LCD screens because these screens do not have a scanning luminance response like that found with the CRT.
Other methods provide a binary bit stream where each bit is produced at the video field rate. For a typical CRT, this provides one binary data bit each 16 msec. (60 fields per second). While this approach is viable for the CRT, it will not work well for flat panel displays. The slow response time of LCD panels mean that only a small number of data bits could be transferred per second. For a passive display, 3 bits would be possible (assuming 300 msec. response time). For active panels, 20 bits could be transferred. Using conventional start and stop bits, a passive panel would then be capable of transmitting 0.3 bytes per second and active panels 2 bytes per second. This is too low a data rate for many applications.
Various modulation schemes are proposed below that are suitable for use with both CRT and LCD displays.
A first approach to data modulation of a display screen employs luminance modulation. This method drives the display with varying levels of intensity. Each intensity level can represent an entire data digit. For example,
The luminance levels are detected by a photodetector in a receiving device. Discrete luminance levels can be generated using several different methods:
a) Gray scales
This method drives a spot on the display to one of several discrete shades of gray. The photodetector in the receiving device can detect the discrete levels and convert each level into a single digit value. Reference levels can also be sent periodically in the data stream to establish the black and white (highest/lowest) luminance levels. This allows the photodetector output to be scaled to more accurately detect each discrete gray level. One limitation to this method is that the gray scale response of the display may not be linear. In fact, gray scale levels are greatly affected by the monitor's contrast and brightness controls. These controls can be changed by the user and are not predictable or known constants.
b) Chromatic luminance
It is possible to convey various luminance levels by selecting different color combinations. Each color has a luminance component combined with a chroma component. Selecting different colors also selects different luminance levels. For example, dark brown has a low luminance while cyan has a high luminance. Note that what is being detected with this method is luminance—not color. Accurate luminance detection depends on the color response of the display, the monitor contrast, brightness and color settings, and the color response characteristics of the photodetector. Accurate detection using this method typically requires some form of calibration to match the photodetector response to the display color response.
With reference to
The dithering approach illustrated in
d) Multi-color modulation
Another method is to use two or more color channels to provide a means of data modulation. For this method two or more photodetectors are used, each responsive to different portions of the color spectrum. For example, separate red and green photodetectors could be used to detect varying shades of each color. Using two channels allows data encoding using the luminance level of each color channel, or the phase between two color signals. Phase modulation works by modulating the color channels at a given rate, but varying the phase relationship between the two channels as shown in FIG. 10.
To further increase the data density, it is possible to combine modulation of color luminance with color phase. Thus at any given sample interval, three parameters are available: red intensity, green intensity and phase relationship. If eight discrete values of each parameter are used, each sample point can represent 83 values or 1 of 512 discrete numerical values per sample. A disadvantage to this method is the requirement for two color-selective detectors. Also, color response can vary between displays, so some type of color calibration may be required.
Using a video image, data can be represented using luminance levels or color. This allows higher data density because each “bar” in the video bar code can represent an entire decimal digit instead of just a single binary bit. This increases data density by 8 to 10 times compared to conventional bar codes.
Chromatic luminance modulation was described above as a form of intensity modulation. It is also possible to employ a true color modulation in which specific color hues are used to represent corresponding numerical values. Depending on the range of hues used, an array of two or three separate detectors sensitive to different spectral components, such as by using appropriate filters, is required. A beam splitter may be employed to direct light to the individual detectors of the array in the receiving device.
Regardless of the method of modulation employed, it is desirable that the data transmission by self-clocking. This means that individual data characters are detected by the receiving device without precise time spacing between characters. This self-clocking approach allows for pauses to occur during the transmission of data characters without creating transmission errors. Pauses can occur in PCs if the operating system performs another task while the transmission is active. For example, multitasking operating systems will commonly write data between memory cache storage and disk drives. This activity can preempt the operation of other software and cause short pauses in the operation of lower level applications. For internet based data transfers, varying delays are also common when moving data between servers and client PCs.
It is also important to accommodate different data rates depending on the type of display monitor being used. Prior to starting the data transfer, the user can make a selection to indicate the type of display being used. If the display is a CRT, a faster transfer rate may be used (up to 75 digits per second). If an active matrix display is being used the transfer rate will be slower (20 digits per second). While the selection of transfer rate is easily accomplished on the PC side, the receiving device will preferably be compatible with all available transfer rates. Using self clocking data allows the receiving device to receive data at the transmission rate, without the need for a data rate selection on the receiving device itself.
An efficient self-clocking method using a non-binary data encoding is illustrated in FIG. 12. If luminance modulation is used the receiving device can detect each discrete luminance level change as a new digit. The length of time between successive digits is irrelevant. If the same digit value is sent twice in succession, a special “repeat” character can be used to indicate that the last digit value is repeating. As shown in
In contrast to self-clocking methods, another modulation approach is based on the time spacing between changes in intensity level or color. With this approach, only a limited number of intensity levels or colors is required. The number of discrete intensity levels or colors may be as few as two. The time interval between changes in intensity level or color has a number of possible discrete values, each of which corresponds to a numerical value. A significant advantage of this approach is that it is not sensitive to variations in display intensity or color fidelity. However, due to the characteristic response times, this approach is better suited to CRT displays than to LCD displays.
Receiving device 200 may be configured in any convenient form. As discussed above in connection with transfer device 16, receiving device 200 may have an elongated cylindrical shape similar to a pen or a wand. In such case, photodetector 202 may be conveniently located at one end of the device. However, it has been found that pen- or wand-shaped devices have disadvantages when used with LCD flat screen displays. If the device is pressed against the display, even with light pressure, the display may be distorted, thereby affecting the accuracy of the data transfer. For flat panel displays, a flat, card-shaped receiving device is preferred. Such a device may be held against the display screen without distorting the display.
To ensure proper registration of the receiving device with the display screen, a visual indication of the area of the display screen that will contain the data modulation is preferably provided. As shown in
In the examples discussed above, a single photodetector (or paired detectors in the case of bi-color modulation) is used in combination with a single modulated region of the display screen. It will be appreciated that the data transfer rate can be multiplied by employing a suitable array of photodetectors in combination with a corresponding array of data transmission regions. Obviously, the array of detectors must be properly registered with the array of modulated regions on the display. This can present a challenge in the case of a handheld receiving device. One solution to this challenge is illustrated in FIG. 14. Here, the display is divided into four quadrants that are independently modulated. The receiving device includes an array of four independent photodetectors. By providing simple registration marks on both the display screen and the receiving device, the receiving device can be held against the display screen so that the photodetectors are in proper registration with the corresponding quadrants.
A prototype system has been constructed. The prototype receiving device is configured as a card having the same length and width as a standard credit card. A 9 mm round photodetector element is located in the center of one face of the card. Electronic circuitry within the card amplifies the output signal of the photodetector, which is then applied as an analog input to a conventional personal computer system where A/D conversion is performed. The photodetector element is designed to detect the average luminance over a 9 mm round area of the display screen. The detector consists of a translucent glass window and a photo-Darlington transistor photodetector mounted in a plastic enclosure.
The prototype system employs luminance modulation using the dithering approach discussed above. A total of 12 luminance levels are used to represent ten decimal values plus two additional values to indicate formatting and repeating characters. Using a CRT display, the prototype system has achieved data transfer rates of 20 characters per second.
The photodetector in the receiver detects the luminance change as the electron beam in the CRT passes over the detector. This screen phosphor glows with a brightness related to the average screen luminance. For a CRT display, the beam is constantly scanning the screen. This creates a pulse as the beam passes over the detector. Therefore, the signal detected is a pulse which repeats at the frame rate of the display (typically 13 to 17 msec. per field).
Since the received signal is a pulse, a software algorithm processes the A/D conversion readings in order to establish the luminance level represented by the peaks of the detected pulses. The software algorithm is then capable of decoding these levels back into packets of data.
It is desirable for the system to automatically adapt to varying intensity levels on the display. Different luminance levels will result due to variances in the brightness response of the display, the sensitivity characteristics of the photodetector and also due to adjustment of the brightness and contrast settings of the monitor.
To automatically adjust for these differences, the system provides a calibration sequence at the start of each data transmission. As illustrated in
It will be recognized that the above-described invention may be embodied in other specific forms without departing from the spirit or essential characteristics of the disclosure. Thus, it is understood that the invention is not to be limited by the foregoing illustrative details, but rather is to be defined by the appended claims.
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|U.S. Classification||379/102.03, 379/90.01, 379/93.17, 379/102.01|
|Cooperative Classification||H04L67/025, H04L12/2814, H04L2012/285, H04L2012/2849, H04M11/007|
|European Classification||H04L12/28H2D, H04L29/08N1A|
|Jul 16, 2002||AS||Assignment|
|Oct 20, 2008||FPAY||Fee payment|
Year of fee payment: 4
|Nov 23, 2010||CC||Certificate of correction|
|Dec 21, 2010||CC||Certificate of correction|
|Dec 3, 2012||REMI||Maintenance fee reminder mailed|
|Feb 27, 2013||SULP||Surcharge for late payment|
Year of fee payment: 7
|Feb 27, 2013||FPAY||Fee payment|
Year of fee payment: 8
|Mar 13, 2015||AS||Assignment|
Owner name: INTELLECTUAL DISCOVERY CO., LTD., KOREA, REPUBLIC
Free format text: ASSIGNMENT OF ASSIGNORS INTEREST;ASSIGNOR:POINTSET CORPORATION;REEL/FRAME:035164/0063
Effective date: 20150223